private Printer(PrinterProfile profile, SpoolerClient client)
{
this.client = client;
mylockID = Guid.Empty;
m_printer_profile.Value = profile;
thread_sync = new object();
spool_lock = new object();
spool_up_to_date = false;
incoming_data = null;
Found = new ThreadSafeVariable <bool>
{
Value = false
};
_connected = new ThreadSafeVariable <bool>
{
Value = false
};
log = new CircularArray <string>(200);
LogWaits = true;
LogFeedback = true;
waiting_object = null;
waiting_object_lock = new object();
lockstatus = new ThreadSafeVariable <PrinterLockStatus>(PrinterLockStatus.Unlocked);
lockstepmode = new ThreadSafeVariable <bool>(true);
lockTimeOutSeconds = new ThreadSafeVariable <int>(0);
keeplockalive_clock = new Stopwatch();
keeplockalive_limit_clock = new Stopwatch();
finished_lock = new object();
m_ChangedKeyValuePairs = new ConcurrentDictionary <string, string>();
}
public Printer(string printer_serial_number, PrinterProfile profile, SpoolerClient client)
: this(profile, client)
{
printer_info = new PrinterInfo
{
serial_number = new PrinterSerialNumber(printer_serial_number)
};
}
public static List <string> CreateYSpeedTest(PrinterProfile profile)
{
var y = profile.PrinterSizeConstants.printBedSize.y;
return(new List <string>()
{
"G91", PrinterCompatibleString.Format("G0 Y{0} F{1}", y, 3000f), PrinterCompatibleString.Format("G0 Y-{0}", (object)y), PrinterCompatibleString.Format("G0 Y{0}", (object)y), PrinterCompatibleString.Format("G0 Y-{0}", (object)y), PrinterCompatibleString.Format("G0 Y{0}", (object)y), PrinterCompatibleString.Format("G0 Y-{0}", (object)y)
});
}
public static List <string> CreateXSpeedTest(PrinterProfile profile)
{
var x = profile.PrinterSizeConstants.printBedSize.x;
return(new List <string>()
{
"G91", PrinterCompatibleString.Format("G0 X{0} F{1}", x, 3000f), PrinterCompatibleString.Format("G0 X-{0}", (object)x), PrinterCompatibleString.Format("G0 X{0}", (object)x), PrinterCompatibleString.Format("G0 X-{0}", (object)x), PrinterCompatibleString.Format("G0 X{0}", (object)x), PrinterCompatibleString.Format("G0 X-{0}", (object)x)
});
}
public static List <string> FastRecenter(PrinterProfile profile)
{
var x = profile.PrinterSizeConstants.printBedSize.x;
var y = profile.PrinterSizeConstants.printBedSize.y;
return(new List <string>()
{
"G91", PrinterCompatibleString.Format("G0 Y{0} F{1}", y, 3000f), PrinterCompatibleString.Format("G0 X{0} F{1}", x, 3000f), PrinterCompatibleString.Format("G0 Y-{0} X-{1}", (float)((double)y / 2.0), (float)((double)x / 2.0))
});
}
public TGH_FilamentProfile(FilamentSpool spool, PrinterProfile printer_profile)
: base(spool)
{
preprocessor.initialPrint.StartingFanValue = byte.MaxValue;
preprocessor.initialPrint.StartingTempStabilizationDelay = 15;
preprocessor.initialPrint.StartingTemp = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature - 5);
preprocessor.bonding.FirstLayerTemp = preprocessor.initialPrint.StartingTemp;
preprocessor.bonding.SecondLayerTemp = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature - 10);
preprocessor.initialPrint.PrimeAmount = 9;
preprocessor.initialPrint.FirstRaftLayerTemperature = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature - 5);
preprocessor.initialPrint.SecondRaftResetTemp = true;
}
public ABS_FilamentProfile(FilamentSpool spool, PrinterProfile printer_profile)
: base(spool)
{
ABSWarningDim = printer_profile.PrinterSizeConstants.ABSWarningDim;
preprocessor.initialPrint.StartingTemp = filament.filament_temperature;
if ("Micro" == printer_profile.ProfileName)
{
preprocessor.initialPrint.StartingFanValue = 50;
}
else
{
preprocessor.initialPrint.StartingFanValue = 220;
}
preprocessor.initialPrint.StartingTempStabilizationDelay = 10;
preprocessor.bonding.FirstLayerTemp = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature + 15);
preprocessor.bonding.SecondLayerTemp = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature + 10);
preprocessor.initialPrint.PrimeAmount = 19;
preprocessor.initialPrint.FirstRaftLayerTemperature = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature + 15);
preprocessor.initialPrint.SecondRaftResetTemp = false;
}
public static FilamentProfile CreateFilamentProfile(FilamentSpool spool, PrinterProfile printer_profile)
{
switch (spool.filament_type)
{
case FilamentSpool.TypeEnum.ABS:
case FilamentSpool.TypeEnum.HIPS:
return(new ABS_FilamentProfile(spool, printer_profile));
case FilamentSpool.TypeEnum.PLA:
case FilamentSpool.TypeEnum.CAM:
return(new PLA_FilamentProfile(spool, printer_profile));
case FilamentSpool.TypeEnum.FLX:
case FilamentSpool.TypeEnum.TGH:
return(new TGH_FilamentProfile(spool, printer_profile));
case FilamentSpool.TypeEnum.ABS_R:
return(new ABS_R_FilamentProfile(spool, printer_profile));
default:
throw new ArgumentException("FilamentProfile.CreateFilamentProfile does not know that type :(");
}
}
public bool VerifyOptionsWithPrinter(PrinterProfile profile, PrinterInfo printerInfo)
{
var flag1 = true;
if (jobMode == JobParams.Mode.ReconnectToSDPrint)
{
throw new NotImplementedException("ReconnectToSDPrint jobs can only be started directly from the FirmwareController.");
}
if (options.calibrate_before_print && printerInfo.supportedFeatures.UsesSupportedFeatures && !printerInfo.supportedFeatures.Available("Single Point Bed Height Calibration", profile.SupportedFeaturesConstants))
{
flag1 = false;
options.calibrate_before_print = false;
}
if (options.use_heated_bed)
{
var num = profile.AccessoriesConstants.HeatedBedConstants.HasBuiltinHeatedBed ? 1 : 0;
var flag2 = false;
if (num != 0 && printerInfo.supportedFeatures.UsesSupportedFeatures)
{
flag2 = printerInfo.supportedFeatures.Available("Heated Bed Control", profile.SupportedFeaturesConstants);
}
if (num == 0 || !flag2)
{
flag1 = false;
options.use_heated_bed = false;
}
}
if (jobMode != JobParams.Mode.DirectPrinting && printerInfo.supportedFeatures.UsesSupportedFeatures && !printerInfo.supportedFeatures.Available("Untethered Printing", profile.SupportedFeaturesConstants))
{
jobMode = JobParams.Mode.DirectPrinting;
}
return(flag1);
}
public ABS_R_FilamentProfile(FilamentSpool spool, PrinterProfile printer_profile)
: base(spool, printer_profile)
{
preprocessor.bonding.FirstLayerTemp = printer_profile.TemperatureConstants.GetBoundedTemp(filament.filament_temperature - 15);
}
public Printer(PrinterInfo info, PrinterProfile profile, SpoolerClient client)
: this(profile, client)
{
printer_info = new PrinterInfo(info);
}
public static Vector3D Op3dCalculateDestinationWithClipping(Trilean bExtruderIsHomed, bool bExtruderZValid, ref bool bDestinationHasBeenClipped, Vector3D op3dDestination, Vector3D op3dInitial, PrinterProfile printerProfile)
{
var intercept = new Vector3D();
bDestinationHasBeenClipped = false;
if (bExtruderIsHomed == Trilean.True)
{
bDestinationHasBeenClipped = printerProfile.PrinterSizeConstants.WarningRegion.LineIntercepts(out intercept, op3dInitial, op3dDestination);
}
else if (bExtruderZValid)
{
intercept.x = 0.0f;
intercept.y = 0.0f;
bDestinationHasBeenClipped = printerProfile.PrinterSizeConstants.UnhomedSafeZRange.Intercepts(out intercept.z, op3dInitial.z, op3dDestination.z);
}
return(intercept);
}
public static List <string> CreateYSkipTestPlus(PrinterProfile profile)
{
return(TestGeneration.CreateSkipTestInternal(profile.PrinterSizeConstants.printBedSize.y, 5, 'Y'));
}
public static List <string> CreateXSkipTestMinus(PrinterProfile profile)
{
return(TestGeneration.CreateSkipTestInternal(profile.PrinterSizeConstants.printBedSize.x, -4, 'X'));
}
